#![allow(non_snake_case)] use curve25519_dalek::ristretto::RistrettoPoint as G; use group::ff::PrimeField; use group::Group; use sha2::Sha512; use sigma_compiler::*; fn pubscalars_vec_test_vecsize(vecsize: usize) -> sigma_proofs::errors::Result<()> { sigma_compiler! { proof, (vec x, vec y, pub vec a, pub vec b, rand vec r, rand vec s), (vec C, vec D, const cind A, const cind B), C = x*A + r*B, D = y*A + s*B, y = 2*x + b, b = 3*a - 7, } type Scalar = ::Scalar; let mut rng = rand::thread_rng(); let A = G::hash_from_bytes::(b"Generator A"); let B = G::generator(); let r: Vec = (0..vecsize).map(|_| Scalar::random(&mut rng)).collect(); let s: Vec = (0..vecsize).map(|_| Scalar::random(&mut rng)).collect(); let x: Vec = (0..vecsize).map(|i| Scalar::from_u128(i as u128)).collect(); let a: Vec = (0..vecsize) .map(|i| Scalar::from_u128((i + 12) as u128)) .collect(); let b: Vec = (0..vecsize) .map(|i| a[i] + a[i] + a[i] - Scalar::from_u128(7)) .collect(); let y: Vec = (0..vecsize).map(|i| x[i] + x[i] + b[i]).collect(); let C: Vec = (0..vecsize).map(|i| x[i] * A + r[i] * B).collect(); let D: Vec = (0..vecsize).map(|i| y[i] * A + s[i] * B).collect(); let instance = proof::Instance { C, D, A, B, a, b }; let witness = proof::Witness { x, y, r, s }; let proof = proof::prove(&instance, &witness, b"pubscalars_vec_test", &mut rng)?; proof::verify(&instance, &proof, b"pubscalars_vec_test") } #[test] fn pubscalars_vec_test() { pubscalars_vec_test_vecsize(0).unwrap(); pubscalars_vec_test_vecsize(1).unwrap(); pubscalars_vec_test_vecsize(2).unwrap(); pubscalars_vec_test_vecsize(20).unwrap(); }